应用多针常压冷等离子体开发富含生物活性化合物且功能特性更强的稗子粉

IF 2.7 3区 农林科学 Q3 ENGINEERING, CHEMICAL
Vishal Sharma, Mahipal Singh Tomar, Sibasish Sahoo, Rama Chandra Pradhan
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引用次数: 0

摘要

冷等离子体是一种非热处理技术,有助于以最小的热损伤和可忽略不计的温升对食品材料进行改性。本研究解释了多级常压冷等离子体(MACP)处理对稗米粉(BMF)的影响,重点是其功能特性和生物活性化合物,如总酚类和类黄酮,以及抗营养素,以及其理化特性,包括颜色、pH 值、水分含量、近似成分和形态改变。用不同功率水平(10-30 千伏)的 MACP 处理去壳和磨碎的稗子 10-30 分钟。与对照组相比,电压时间较长的处理(30 千伏:20 分钟和 30 千伏:30 分钟)对样品有明显影响。具体来说,30 千伏:30 分钟处理后,水溶性指数(0.83-3.92 克/克)、吸水性(1.08-1.59 克/克)、粘度(164.31-180.14 厘泊)、吸油性(1.94-2.35 克/克)、乳化性(37.40%-44.51%)和发泡能力(20.61%-24.99%),以及生物活性化合物,如酚含量(229.33-280.54 毫克没食子酸当量/100 克)和黄酮含量(173.75-244.71 毫克槲皮素当量/100 克)。此外,傅立叶变换红外光谱分析显示了官能团的变化,X 射线衍射分析显示了结晶度的变化,扫描电子显微镜成像显示了 MACP 处理后的形态变化。抗营养因子植酸和单宁酸显著减少(p <.05),后者在 30 kV:20 分钟时减少最为明显。经 30 kV:30 min 处理的面粉尤其在 BMF 特性方面有明显改善,MACP 可进一步用于提高粉状食品的溶解性和分散性,从而在烘焙、功能性和无麸质产品中提供多种应用。 实际应用 稗子是一种天然无麸质谷物,富含蛋白质和纤维,经多级常压冷等离子体处理后,其功能特性(包括水溶性、吸水性、油脂结合能力、发泡-乳化能力和粘度)得到提高,从而为各种实际应用提供了机会。此外,性能的提高还有助于开发更好的挤压产品,包括营养丰富的早餐谷物和健康零食,并改善质地和稳定性,同时促进稗子等未充分利用谷物的利用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Development of barnyard millet flour rich in bioactive compounds with enhanced functional properties by application of multipin atmospheric cold plasma

Cold plasma, a nonthermal technology, aids in modifying food materials with the least thermal damage and negligible rise in temperature. This research explains the implications of multipin atmospheric cold plasma (MACP) treatment on barnyard millet flour (BMF), focusing on its functional properties and bioactive compounds, such as total phenols and flavonoids, along with antinutrients, as well as its physicochemical properties, including color, pH, moisture content, proximate composition, and morphological alterations. Dehulled and ground barnyard millet was treated with MACP at different power levels (10–30 kV) for 10–30 min. The higher voltage–time treatments (30 kV:20 min and 30 kV:30 min) were found significantly affecting the samples compared to the control. Specifically, the 30 kV:30 min treatment showed a prominent increase in water solubility index (0.83–3.92 g/g), water absorption capacity (1.08–1.59 g/g), viscosity (164.31–180.14 centipoise), oil absorption (1.94–2.35 g/g), emulsifying (37.40%–44.51%), and foaming capacity (20.61%–24.99%), along with the bioactive compounds such as phenol content (229.33–280.54 mg gallic acid equivalents/100 g) and flavonoid content (173.75–244.71 mg quercetin equivalents/100 g). Furthermore, Fourier transform infrared spectrometry analysis revealed shifts in functional groups, X-ray diffraction analysis demonstrated changes in crystallinity, and scanning electron microscopy imaging depicted morphological alterations post-MACP treatment. The antinutrient factors, phytic and tannic acid, decreased significantly (p < .05), with the most prominent decrease at 30 kV:20 min for the latter. The 30 kV:30 min treated flour, in particular, demonstrated significant improvements in BMF properties, and MACP can be further employed for better solubility and dispersibility of powdered food products, offering versatile applications in baked, functional, and gluten-free products.

Practical applications

Barnyard millet, a naturally gluten-free grain rich in protein and fiber, upon the multipin atmospheric cold plasma treatment, offers opportunities in a wide range of practical applications due to the increased functional properties, including water solubility, water absorption, oil binding capacity, foaming–emulsifying abilities, and viscosity. Additionally, the enhanced properties allow for the development of better extruded products, including nutritious breakfast cereals and healthy snacks with improved texture and stability, while promoting the utilization of underutilized grains like barnyard millet.

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来源期刊
Journal of Food Process Engineering
Journal of Food Process Engineering 工程技术-工程:化工
CiteScore
5.70
自引率
10.00%
发文量
259
审稿时长
2 months
期刊介绍: This international research journal focuses on the engineering aspects of post-production handling, storage, processing, packaging, and distribution of food. Read by researchers, food and chemical engineers, and industry experts, this is the only international journal specifically devoted to the engineering aspects of food processing. Co-Editors M. Elena Castell-Perez and Rosana Moreira, both of Texas A&M University, welcome papers covering the best original research on applications of engineering principles and concepts to food and food processes.
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